Distant induction breeding device
Through the design of the sunshade ink plate and buffer structure, the high energy consumption and vibration problems of breeding equipment are solved, fine light control is achieved and dust influence is reduced, and breeding efficiency and yield is improved.
Patent Information
- Application Number
- CN202422414981.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-08
- Publication Date
- 2025-08-01
- Estimated Expiration
- 2034-10-08
AI Technical Summary
Existing breeding equipment is difficult to finely adjust sunlight, resulting in high energy consumption and long breeding cycles, and equipment vibration and dust accumulation affect the breeding effect.
The sunshade ink plate and buffer structure design is adopted to control the rotation of the sunshade ink plate by motor to adjust the light to reduce the use of ultraviolet lamps; the arc hook groove strip is installed to prevent dust from entering, and the buffer spring is used to reduce the impact of vibration.
It reduces breeding costs, improves equipment stability and yield, and reduces the damage to seeds caused by equipment energy consumption and vibration.
Smart Images
Figure CN223168814U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of breeding equipment, in particular to a distant hybridization induction breeding device. Background Art
[0002] A distant hybridization induction breeding device is a technical equipment used in the field of plant breeding. It mainly promotes gene recombination and innovation by inducing distant hybridization between plants to obtain breeding materials or varieties with new traits. The application fields of the distant hybridization induction breeding device are very extensive, mainly concentrated in plant breeding and germplasm innovation. For example, in cruciferous vegetables such as Chinese cabbage, in the fields of self-incompatible breeding and distant hybridization breeding, with the help of the distant hybridization induction breeding device, scientific researchers can more efficiently carry out distant hybridization between species and genera, realizing the innovation and expansion of germplasm.
[0003] In the prior art, in the field of plant breeding, especially in the distant hybridization breeding of cruciferous vegetables such as Chinese cabbage, scientific researchers have developed a breeding technology that can break the reproductive isolation of distant hybridization by regulating the molecular mechanism of stigma reactive oxygen species level to maintain interspecific reproductive isolation. This breeding technology has specific requirements for light conditions. Since the existing breeding equipment is difficult to adjust the sunlight irradiation in time, especially when precise control of light intensity and time is required, even in areas with good light resources, it often relies only on ultraviolet lamps for irradiation, which leads to a significant increase in the energy consumption of the equipment. Plant breeding usually has a long cycle, and the equipment needs to run continuously to ensure the provision of appropriate light conditions. If the ideal result cannot be induced within one cycle, a new cycle needs to be restarted, which causes the equipment to be in a high-energy consumption state for a long time. This continuous high energy consumption not only increases the production cost but also burdens the environment. Summary of the Utility Model
[0004] The purpose of the utility model is to solve the defects existing in the prior art and propose a distant hybridization induction breeding device.
[0005] To achieve the above object, the present utility model adopts the following technical solution: A distant hybridization induction breeding device, comprising a device main body, wherein a breeding bin is provided on the inner wall of the device main body, a fixed track is fixed to the top end of the inner wall of the breeding bin, a chute is provided on the surface of the fixed track, one end of the fixed track is rotatably connected to a driving arc gear, the driving arc gear is driven by a motor, a rotating shaft triangular member is fixed to the circumferential surface of the driving arc gear, a sunshade ink plate is fixed to the top of the rotating shaft triangular member, a terminal gear folding connecting rod is engaged with the surface of the driving arc gear, one side of the terminal gear folding connecting rod is rotatably connected to one side of the fixed track, one end of the terminal gear folding connecting rod is rotatably connected to a pulling connecting rod, one end of the pulling connecting rod is rotatably connected to a guiding slider, the side surface of the guiding slider is slidably connected to the inner wall of the chute, a rotating shaft triangular member is fixed to the circumferential surface of one end of the pulling connecting rod, a terminal gear folding connecting rod is engaged with the surface of the pulling connecting rod, a limiting circular member is fixed to one side of the guiding slider. In the prior art, in the field of plant breeding, especially in the distant hybridization breeding of cruciferous vegetables such as Chinese cabbage, scientific research personnel have developed a molecular mechanism to maintain interspecific reproductive isolation by regulating the level of stigma reactive oxygen species, and have developed a breeding technology that can break the reproductive isolation of distant hybridization. This breeding technology has specific requirements for light conditions. Since the existing breeding equipment is difficult to adjust the sunlight irradiation in a timely manner, especially when fine control of light intensity and time is required, even in areas with good light resources, it often relies only on ultraviolet lamps for irradiation, which leads to a significant increase in the energy consumption of the equipment. Plant breeding usually has a long cycle, and the equipment needs to run continuously to ensure the provision of appropriate light conditions. If an ideal result cannot be induced within one cycle, a new cycle needs to be restarted, which results in the equipment being in a high-energy consumption state for a long time. This continuous high energy consumption not only increases the production cost but also burdens the environment. To solve such problems, the present utility model adopts the method of installing a sunshade ink plate. When the light conditions are good and natural light irradiation is required for breeding, the staff starts the motor to make the driving arc gear rotate counterclockwise. The rotating shaft triangular member at the driving arc gear rotates counterclockwise, causing the sunshade ink plate to rotate counterclockwise and tilt up. At the same time, the driving arc gear meshes and rotates to drive the terminal gear folding connecting rod to rotate clockwise, pulling the pulling connecting rod to approach the driving arc gear by relying on the guiding slider. While the pulling connecting rod rotates counterclockwise, other sunshade ink plates rotate counterclockwise and tilt up while collectively approaching the driving arc gear, causing the shielding of the breeding bin to fail, and sunlight can shine into the inner wall of the equipment, reducing the use time of ultraviolet lamps. At the same time, by replacing sunshade ink plates with different light transmittances, the equipment can meet the breeding needs of different types of plants, achieving the effect of reducing production costs.
[0006] Preferably, a bottom cushion column is fixed to the bottom of the device body, and a foot pad member is fixed to the bottom of the bottom cushion column. An internal groove is formed in the inner wall of the foot pad member, a buffer spring is fixed to the inner wall of the internal groove, a friction block is fixed to the bottom of the buffer spring, the side surface of the friction block is slidably connected to the inner wall of the internal groove, and a bottom backing plate is fixed to the bottom of the friction block. In the prior art, vibrations are inevitably generated during the operation of the device. For the device components, long-term vibrations cause them to loosen, wear, or even be damaged. Especially when the internal structure of the device is complex and there are many components, vibrations will cause mutual collisions between the components, resulting in deformation or damage of the components. This not only reduces the stability and service life of the device, but also affects the normal operation of the device, thereby affecting the breeding or planting effect. For seeds, vibrations will cause direct physical damage to them. Seeds are usually very fragile, especially in the germination stage, when their internal structure and physiological functions are very delicate. The vibrations of the device will cause the seeds to be jolted and collided during sowing, thus affecting the germination rate of the seeds and the growth quality of the seedlings. In addition, vibrations also affect the growth environment of the seeds. For example, during the plant tissue culture process, vibrations will cause the culture medium to shake, thereby affecting the normal growth and differentiation of plant cells. On the seedling tray or planting rack, vibrations also cause the substrate to loosen, making the seeds unable to obtain stable support and nutrient supply. To solve such problems, the present utility model adopts the method of installing a foot pad member. When the device vibrates, the vibrations are transmitted by the bottom cushion column to the foot pad member. The foot pad member continuously pulls and compresses the buffer spring under the vibration. The buffer spring converts the vibration into elastic potential energy. When it releases the elastic potential energy, due to the large friction force between the inner wall of the internal groove and the side surface of the friction block, the release of the elastic potential energy of the buffer spring is hindered, and the elastic potential energy is converted into internal energy, greatly reducing the impact caused by the vibrations of the device and achieving the effect of improving the service life of the device.
[0007] Preferably, an arc-shaped hook groove strip is fixedly arranged in a linear array at the top of the sunshade ink board. In the prior art, in plant breeding and planting equipment, the sunshade ink board is used to adjust the light intensity and provide a suitable growth environment for plants. However, dust often accumulates on the surface of the sunshade ink board, which poses certain challenges to the operation of the equipment and the breeding effect. As the sunshade ink board rotates, the dust on its surface will be lifted under the influence of vibration and air flow. These dust particles will suspend in the air and easily enter the inner wall of the equipment along with the air flow. Once the dust enters the equipment, it will have various impacts on the breeding process. Firstly, the dust particles adhere to other components inside the equipment, affecting the normal operation of these components. For example, in the light control system, the dust covers the light source or sensor, resulting in inaccurate adjustment of the light intensity, and then affecting the photosynthesis and growth and development of plants. Secondly, the dust directly falls on the seeds or plants. These dust particles carry microorganisms, pathogens or other harmful substances, increasing the risk of plant diseases. In addition, the covering of dust also affects the respiration and germination of seeds, reducing the germination rate and survival rate of seeds. To solve such problems, the present utility model adopts the method of installing the arc-shaped hook groove strip, so that when the sunshade ink board rotates, the existence of the arc-shaped hook groove strip intercepts the dust on the surface, prevents it from falling into the inner wall of the equipment, and at the same time facilitates the staff to clean the dust, achieving the effect of improving the yield rate.
[0008] Preferably, a side rectangular groove is arranged on the side of the equipment main body, and a handling handle is fixed on the inner wall of the side rectangular groove, which is convenient for the staff to carry without increasing the occupied space and improves the user experience.
[0009] Preferably, a front groove is arranged on the front of the equipment main body, which is convenient for the staff to place their legs and improves the user experience.
[0010] Preferably, an elliptical pad is fixed on the top of the bottom cushion plate to provide buffering, prevent the collision between components, and improve the service life of the equipment.
[0011] Preferably, both sides of the inner wall of the sliding groove are circular, which reduces wear and improves the service life of the equipment.
[0012] Beneficial effects:
[0013] 1. In the prior art, in the field of plant breeding, especially in the distant hybridization breeding of cruciferous vegetables such as Chinese cabbage, scientific researchers have developed a molecular mechanism to maintain interspecific reproductive isolation by regulating the reactive oxygen species level of the stigma, and have developed a breeding technology that can break the reproductive isolation of distant hybridization. This breeding technology has specific requirements for light conditions. Since the existing breeding equipment is difficult to adjust the sunlight irradiation in a timely manner, especially in the case where the light intensity and time need to be precisely controlled, even in areas with good light resources, it often relies only on ultraviolet lamps for irradiation. This leads to a significant increase in the energy consumption of the equipment. Plant breeding usually has a long cycle, and the equipment needs to run continuously to ensure the provision of appropriate light conditions. If the desired results cannot be induced within one cycle, a new cycle needs to be restarted, which results in the equipment being in a high-energy-consuming state for a long time. This continuous high energy consumption not only increases the production cost but also burdens the environment. To address such problems, the present utility model solves them by installing a sunshade ink plate. When the light conditions are good and natural light irradiation is required for breeding, the staff starts the motor to make the active arc gear rotate counterclockwise. The rotating shaft triangle at the active arc gear rotates counterclockwise accordingly, causing the sunshade ink plate to rotate counterclockwise and tilt up. At the same time, the active arc gear meshes and rotates to drive the end gear folding link, making it rotate clockwise. While pulling the connecting link to approach the active arc gear relying on the guiding slider, the connecting link rotates counterclockwise, causing other sunshade ink plates to rotate counterclockwise and tilt up while collectively approaching the active arc gear, resulting in the shielding of the breeding chamber failing and sunlight shining into the inner wall of the equipment, reducing the usage time of ultraviolet lamps. At the same time, by replacing sunshade ink plates with different light transmittance, the equipment can meet the breeding needs of different types of plants, achieving the effect of reducing production costs.
[0014] 2. In the prior art, vibrations are inevitably generated during the operation of equipment. For equipment components, long-term vibrations can cause them to become loose, worn, or even damaged. Especially in the case of complex internal structures and numerous components in the equipment, vibrations can cause mutual collisions between components, resulting in deformation or damage to the components. This not only reduces the stability and service life of the equipment but also affects the normal operation of the equipment, thereby affecting the breeding or planting effect. For seeds, vibrations can cause direct physical damage to them. Seeds are usually very fragile, especially in the germination stage, when their internal structures and physiological functions are very delicate. The vibrations of the equipment can cause the seeds to be jolted and collided during sowing, thus affecting the germination rate of the seeds and the growth quality of the seedlings. In addition, vibrations also affect the growth environment of the seeds. For example, during the plant tissue culture process, vibrations can cause the culture medium to shake, thereby affecting the normal growth and differentiation of plant cells. On the seedling tray or planting rack, vibrations also cause the substrate to become loose, making it impossible for the seeds to obtain stable support and nutrient supply. To address such problems, the present utility model solves them by installing footpad components. When the equipment vibrates, the vibrations are transmitted by the bottom cushion posts to the footpad components. The footpad components continuously pull and compress the buffer springs under the action of vibrations. The buffer springs convert the vibrations into elastic potential energy. When the elastic potential energy is released, due to the large frictional force between the inner wall of the built-in groove and the side surface of the friction block, the release of the elastic potential energy of the buffer spring is hindered, and the elastic potential energy is converted into internal energy, greatly reducing the impact caused by the vibrations of the equipment and achieving the effect of improving the service life of the equipment.
[0015] 3. In the prior art, in plant breeding and planting equipment, a sunshade ink plate is used to adjust the light intensity and provide a suitable growth environment for plants. However, dust often accumulates on the surface of the sunshade ink plate, which poses certain challenges to the operation of the equipment and the breeding effect. As the sunshade ink plate rotates, the dust on its surface will be lifted under the influence of vibrations and air currents. These dust particles suspend in the air and are easily carried into the inner wall of the equipment along with the air flow. Once the dust enters the interior of the equipment, it will have various impacts on the breeding process. First, the dust particles adhere to other components inside the equipment, affecting the normal operation of these components. For example, in the light control system, the dust covers the light source or sensor, resulting in inaccurate adjustment of the light intensity, thereby affecting the photosynthesis and growth and development of plants. Second, the dust directly falls on the seeds or plants. These dust particles carry microorganisms, pathogens, or other harmful substances, increasing the risk of plant diseases. In addition, the coverage of the dust also affects the respiration and germination of the seeds, reducing the germination rate and survival rate of the seeds. To address such problems, the present utility model solves them by installing arc hook groove strips. When the sunshade ink plate rotates, the presence of the arc hook groove strips intercepts the dust on the surface, preventing it from falling into the inner wall of the equipment and facilitating the cleaning of the dust by the staff, achieving the effect of improving the yield rate. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 is a three-dimensional structure diagram of the present utility model;
[0017] Figure 2 is a three-dimensional structure diagram of the handling handle of the present utility model;
[0018] Figure 3 is a sectional view of the equipment main body of the present utility model;
[0019] Figure 4 is a three-dimensional structure diagram of the connecting link of the present utility model;
[0020] Figure 5 is a three-dimensional structure diagram of the guiding slider of the present utility model;
[0021] Figure 6 is a sectional view of the foot pad part of the present utility model.
[0022] Legend:
[0023] 1. Equipment main body; 101. Breeding bin; 102. Positive groove; 2. Fixed track; 201. Chute; 202. Active arc gear; 203. End gear folding link; 204. Connecting link; 205. Guiding slider; 206. Limiting circular part; 207. Rotary shaft triangular part; 208. Sunshade ink plate; 209. Arc hook groove bar; 3. Bottom cushion column; 301. Foot pad part; 302. Built-in groove; 303. Buffer spring; 304. Friction block; 305. Bottom cushion plate; 306. Elliptical pad; 4. Side rectangular groove; 401. Handling handle. Detailed implementation manners
[0024] In order to make the technical means, creative features, achieved purposes and functions realized by the present utility model easy to understand, the present utility model will be further described below in conjunction with specific embodiments and drawings. However, the following embodiments are only the preferred embodiments of the present utility model, not all of them. Based on the embodiments in the implementation manners, other embodiments obtained by those skilled in the art without creative efforts all belong to the protection scope of the present utility model.
[0025] The following describes the specific embodiments of the present utility model with reference to the drawings. Specific embodiment:
[0027] Refer to Figure 1-6, A distant hybridization induction breeding device, including a device main body 1. An inner wall of the device main body 1 is provided with a breeding bin 101. A fixed track 2 is fixed at the top end of the inner wall of the breeding bin 101. A chute 201 is provided on the surface of the fixed track 2. One end of the fixed track 2 is rotatably connected to a driving arc gear 202. The driving arc gear 202 is driven by a motor. A rotating shaft triangular member 207 is fixed on the circumferential surface of the driving arc gear 202. A sunshade ink plate 208 is fixed at the top of the rotating shaft triangular member 207. A terminal gear folding connecting rod 203 is engaged with the surface of the driving arc gear 202. One side of the terminal gear folding connecting rod 203 is rotatably connected to one side of the fixed track 2. One end of the terminal gear folding connecting rod 203 is rotatably connected to a pulling connecting rod 204. One end of the pulling connecting rod 204 is rotatably connected to a guiding slider 205. The side surface of the guiding slider 205 is slidably connected to the inner wall of the chute 201. A rotating shaft triangular member 207 is fixed on the circumferential surface of one end of the pulling connecting rod 204. The terminal gear folding connecting rod 203 is engaged with the surface of the pulling connecting rod 204. A limiting circular member 206 is fixed on one side of the guiding slider 205. In the field of plant breeding, especially in the distant hybridization breeding of cruciferous vegetables such as Chinese cabbage, researchers have developed a molecular mechanism to maintain interspecific reproductive isolation by regulating the level of reactive oxygen species in stigmas, and have developed a breeding technology that can break through distant hybridization reproductive isolation. This breeding technology has specific requirements for light conditions. Since existing breeding equipment is difficult to adjust sunlight irradiation in a timely manner, especially when precise control of light intensity and time is required, even in areas with good light resources, it often relies only on ultraviolet lamps for irradiation, which leads to a significant increase in the energy consumption of the equipment. Plant breeding usually has a long cycle, and the equipment needs to run continuously to ensure the provision of appropriate light conditions. If an ideal result cannot be induced within one cycle, a new cycle needs to be restarted, which results in the equipment being in a high-energy consumption state for a long time. This continuous high energy consumption not only increases production costs but also burdens the environment. It is solved by installing the sunshade ink plate 208. When the light conditions are good and natural light irradiation is required for breeding, the staff starts the motor to make the driving arc gear 202 rotate counterclockwise. The rotating shaft triangular member 207 at the driving arc gear 202 rotates counterclockwise accordingly, causing the sunshade ink plate 208 to rotate counterclockwise and tilt up. At the same time, the driving arc gear 202 rotates meshingly to drive the terminal gear folding connecting rod 203 to rotate clockwise, pulling the pulling connecting rod 204 to approach the driving arc gear 202 relying on the guiding slider 205. At the same time, the pulling connecting rod 204 rotates counterclockwise, causing other sunshade ink plates 208 to rotate counterclockwise and tilt up while collectively approaching the driving arc gear 202, resulting in the shielding of the breeding bin 101 failing, and sunlight can shine into the inner wall of the equipment, reducing the use time of ultraviolet lamps. At the same time, by replacing sunshade ink plates 208 with different light transmittances, the equipment can meet the breeding needs of different types of plants, achieving the effect of reducing production costs.At the top of the sunshade ink plate 208, an arc hook groove bar 209 is fixedly arranged in a linear array. In plant breeding and cultivation equipment, the sunshade ink plate 208 is used to adjust the light intensity and provide a suitable growth environment for plants. However, dust tends to accumulate on the surface of the sunshade ink plate 208, which poses certain challenges to the operation of the equipment and the breeding effect. As the sunshade ink plate 208 rotates, the dust on its surface will be lifted under the influence of vibration and air flow. These dust particles suspend in the air and are easily carried into the inner wall of the equipment along with the air flow. Once the dust enters the equipment interior, it will have various impacts on the breeding process. First of all, the dust particles adhere to other components inside the equipment, affecting the normal operation of these components. For example, in the light control system, the dust covers the light source or sensor, resulting in inaccurate adjustment of the light intensity, and thus affecting the photosynthesis and growth and development of plants. Secondly, the dust directly falls on the seeds or plants. These dust particles carry microorganisms, pathogens or other harmful substances, increasing the risk of plants being invaded by diseases. In addition, the coverage of dust also affects the respiration and germination of seeds, reducing the germination rate and survival rate of seeds. The problem is solved by installing the arc hook groove bar 209. When the sunshade ink plate 208 rotates, the existence of the arc hook groove bar 209 intercepts the dust on the surface, preventing it from falling into the inner wall of the equipment, and at the same time facilitating the staff to clean the dust, achieving the effect of improving the yield rate. The two sides of the inner wall of the sliding groove 201 are both set as circular to reduce wear and improve the service life of the equipment.
[0028] At the bottom of the device main body 1, a bottom cushion column 3 is fixed. At the bottom of the bottom cushion column 3, a foot pad member 301 is fixed. An internal groove 302 is formed in the inner wall of the foot pad member 301. A buffer spring 303 is fixed to the inner wall of the internal groove 302. A friction block 304 is fixed to the bottom of the buffer spring 303. The side of the friction block 304 is slidably connected to the inner wall of the internal groove 302. A bottom cushion plate 305 is fixed to the bottom of the friction block 304. When the device is running, vibrations are inevitably generated. For the device components, long-term vibrations can cause them to become loose, worn, or even damaged. Especially when the internal structure of the device is complex and there are many components, vibrations can cause mutual collisions between the components, resulting in deformation or damage of the components. This will not only reduce the stability and service life of the device, but also affect the normal operation of the device, thereby affecting the breeding or planting effect. For seeds, vibrations can cause direct physical damage to them. Seeds are usually very fragile, especially in the germination stage, when their internal structure and physiological functions are very delicate. The vibrations of the device can cause the seeds to be jolted and collided during the sowing process, thus affecting the germination rate of the seeds and the growth quality of the seedlings. In addition, vibrations also affect the growth environment of the seeds. For example, during the plant tissue culture process, vibrations can cause the culture medium to shake, thereby affecting the normal growth and differentiation of plant cells. On the seedling tray or planting rack, vibrations also cause the substrate to become loose, making it impossible for the seeds to obtain stable support and nutrient supply. This problem is solved by installing the foot pad member 301. When the device vibrates, the vibrations are transmitted by the bottom cushion column 3 to the foot pad member 301. The foot pad member 301 continuously pulls and compresses the buffer spring 303 under the action of the vibrations. The buffer spring 303 converts the vibrations into elastic potential energy. When it releases the elastic potential energy, due to the large frictional force between the inner wall of the internal groove 302 and the side of the friction block 304, the release of the elastic potential energy of the buffer spring 303 is hindered, and the elastic potential energy is converted into internal energy, greatly reducing the impact caused by the vibrations of the device and achieving the effect of improving the service life of the device. A side rectangular groove 4 is formed in the side of the device main body 1. A handling handle 401 is fixed to the inner wall of the side rectangular groove 4. This is convenient for the staff to carry the device without increasing the occupied space, improving the user experience. A front concave groove 102 is formed in the front of the device main body 1, which is convenient for the staff to place their legs and improves the user experience. An elliptical cushion 306 is fixed to the top of the bottom cushion plate 305, providing buffering to prevent collisions between components and improving the service life of the device.
[0029] Working principle of the utility model: When the lighting condition is good and natural light is required for breeding, the staff starts the motor to make the active arc gear 202 rotate counterclockwise. The rotating shaft triangular part 207 at the active arc gear 202 rotates counterclockwise accordingly, causing the sunshade ink plate 208 to rotate counterclockwise and tilt up. At the same time, the active arc gear 202 meshes and rotates to drive the end gear folding connecting rod 203, making it rotate clockwise. While pulling the connecting rod 204 to approach the active arc gear 202 by relying on the guiding slider 205, the connecting rod 204 rotates counterclockwise, causing other sunshade ink plates 208 to rotate counterclockwise and tilt up while collectively approaching the active arc gear 202, resulting in the failure of the shielding of the breeding bin 101. Sunlight can shine into the inner wall of the device, reducing the usage time of the ultraviolet lamp. At the same time, by replacing the sunshade ink plates 208 with different light transmittances, the device can meet the breeding needs of different types of plants.
[0030] In the present utility model, unless otherwise clearly specified and defined, the first feature being "above" or "below" the second feature may include the direct contact between the first and second features, or may include the situation where the first and second features are not in direct contact but in contact through other features therebetween. Moreover, the first feature being "above", "over" and "on" the second feature includes that the first feature is directly above and obliquely above the second feature, or merely indicates that the horizontal height of the first feature is higher than that of the second feature. The first feature being "under", "below" and "beneath" the second feature includes that the first feature is directly below and obliquely below the second feature, or merely indicates that the horizontal height of the first feature is lower than that of the second feature.
[0031] The above has shown and described the basic principle, main features and advantages of the present utility model. Those skilled in the art of this industry should understand that the present utility model is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only the preferred examples of the present utility model and are not used to limit the present utility model. Without departing from the spirit and scope of the present utility model, the present utility model will have various changes and improvements, and these changes and improvements all fall within the scope of the present utility model claimed. The scope of protection claimed by the present utility model is defined by the appended claims and their equivalents.
Claims
1. A distant hybridization induction breeding device, comprising a device main body (1), wherein a breeding bin (101) is arranged on the inner wall of the device main body (1), and is characterized in that: At the top end of the inner wall of the breeding bin (101), a fixed track (2) is fixed. A chute (201) is formed on the surface of the fixed track (2). One end of the fixed track (2) is rotatably connected to a driving arc gear (202), and the driving arc gear (202) is driven by a motor. A rotating shaft triangular member (207) is fixed on the circumferential surface of the driving arc gear (202), and a sunshade ink plate (208) is fixed on the top of the rotating shaft triangular member (207). A terminal gear folding connecting rod (203) is engaged with the surface of the driving arc gear (202). One side of the terminal gear folding connecting rod (203) is rotatably connected to one side of the fixed track (2). One end of the terminal gear folding connecting rod (203) is rotatably connected to a pulling connecting rod (204). One end of the pulling connecting rod (204) is rotatably connected to a guiding slider (205). The side surface of the guiding slider (205) is slidably connected to the inner wall of the chute (201). A rotating shaft triangular member (207) is fixed on the circumferential surface of one end of the pulling connecting rod (204). A terminal gear folding connecting rod (203) is engaged with the surface of the pulling connecting rod (204). A limiting circular member (206) is fixed on one side of the guiding slider (205).
2. The distant hybridization induction breeding device according to claim 1, characterized in that: At the bottom of the equipment main body (1), a bottom cushion column (3) is fixed. A foot pad member (301) is fixed at the bottom of the bottom cushion column (3). An internal groove (302) is formed in the inner wall of the foot pad member (301). A buffer spring (303) is fixed on the inner wall of the internal groove (302). A friction block (304) is fixed at the bottom of the buffer spring (303). The side surface of the friction block (304) is slidably connected to the inner wall of the internal groove (302). A bottom cushion plate (305) is fixed at the bottom of the friction block (304).
3. The allogenic induction breeding device according to claim 1, wherein: Arc hook groove strips (209) are linearly arranged and fixed on the top of the sunshade ink plate (208).
4. The wide-cross induction breeding device according to claim 1, wherein: A side rectangular groove (4) is formed on the side surface of the equipment main body (1), and a handling handle (401) is fixed on the inner wall of the side rectangular groove (4).
5. The distant hybridization induction breeding device according to claim 1, wherein: A front concave groove (102) is formed on the front surface of the equipment main body (1).
6. The distant hybridization induction breeding device according to claim 2, characterized in that: An elliptical cushion (306) is fixed on the top of the bottom cushion plate (305).
7. The allogenic induction breeding device according to claim 1, characterized in that: Both sides of the inner wall of the chute (201) are round-headed.